The concept involve in this question is the law of conservation of momentum before and after the collision , after collision puck A and puck B moves with the same velocity , The direction of the resultant momentum vector of the combined mass system of the puck A and puck B is same as the Resultant velocity of the puck A and puck B is being clearly shown by me .




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Puck A of mass 240-g is traveling due east with a speed, v_Ai=10 m/s, on a...
Puck A of mass 240-g is traveling due east
with a speed, , on a level, frictionless air table when it collides
with puck B of mass 160 g traveling at 40° south of west with a
speed, , on the same table. (See the diagram below.) When the pucks
collide, they stick together via Velcro surfaces that line the
circular boundaries of both pucks. Find the magnitude and direction
of the momentum of the tandem of pucks after the...
Initially, a light puck is moving east at 5.0 m/s and a heavy puck moves south at 3.0 m/s there is velcro on the pucks so they stick together after they collide. If the heavy puck is twice the mass of the light puck then find the magnitude of the momentum vector after they collide. Include a picture.
A hockey puck of mass 1 kg is traveling at 2 m/s in a direction 40º south of east. It collides with a stationary puck of mass 0.9 kg. After the collision, the 1 kg puck is traveling at an angle of 60º south of west at a speed of 0.8 m/s. What is the speed and direction of the 0.9 kg puck?
A hockey puck, mass 0.24 kg, travelling with a speed of +20 m/s. collides with another stationary puck of exactly half the mass, hitting it head-on, but instant superglue makes the pucks stick together. The collision is perfectly inelastic and one dimensional. Ignore any friction with the ice they are travelling on. Calculate the total momentum of the two-puck system both before and after the collision.
Part 1:A 20.0 g ball of clay traveling east at 3.00 m/s collides with a 30.0 g ball of clay traveling north at 4.00 m/s. To find the total momentum of this system before the collision, we must determine the momentum of each piece of clay and then sum the two momenta vectorially. The 20.0 g piece has a momentum 0.06 kgm/s east, and the 30.0 g has a momentum 0.12 kgm/s north. What is the magnitude of the vector...
wo pucks collide on an air hockey table. Puck A has a mass of
26.0 g and is initially traveling in the +xdirection at
6.50 m/s. Puck B has a mass of 78.0 g and is initially at rest.
After the pucks collide, puck A moves away at an angle of
58.0
above the +x axis, while puck B travels at an angle of
26.0
below the +x axis.
Calculate puck A's final speed.
Calculate puck B's final speed.
What...
Two pucks collide on an air hockey table. Puck A has a mass of 17.0 g and is initially traveling in the +x direction at 7.80 m/s. Puck B has a mass of 68.0 g and is initially at rest. After the pucks collide, puck A moves away at an angle of 58.0 above the +x axis, while puck B travels at an angle of 24.0 below the +x axis. Calculate puck A's final speed? Calculate puck B's final speed?...
Two pucks collide on an air hockey table. Puck A has a mass of 28 g and is initially traveling in the +x direction at 7.8 m/s. Puck B has a mass of 112 g and is initially at rest. After the pucks collide, puck A moves away at an angle of 45$^\circ$ above the +x axis, while puck B travels at an angle of 42$^\circ$ below the +x axis. Calculate puck A's final speed and puck B's final speed....
Two pucks collide on an air hockey table. Puck A has a mass of 27.0 g and is initially traveling in the +x direction at 6.20 m/s. Puck B has a mass of 108.0 g and is initially at rest. After the pucks collide, puck A moves away at an angle of 54.0 deg above the +x axis, while puck B travels at an angle of 29.0 deg below the +x axis. A.Calculate puck A's final speed. B.Calculate puck B's...
A fullback with a mass of 100 kg and a velocity of 3.0 m/s due west collides head-on with a defensive back with a mass of 86 kg and a velocity of 4.5 m/s due east. (Take the positive direction to be to the west.) (a) What is the initial momentum of each player? momentum of full back kg · m/s momentum of defensive back kg · m/s (b) What is the total momentum of the system before the collision?...